Přístupnostní navigace
E-application
Search Search Close
Publication detail
BARCÍK, P. WILFERT, O. LEITGEB, E. HUDCOVÁ, L.
Original Title
OPTIMAL DISTRIBUTION OF THE OPTICAL INTENSITY WITHIN A LASER BEAM FOR OPTICAL WIRELESS COMMUNICATIONS
Type
journal article in Web of Science
Language
English
Original Abstract
The paper is focused on analysing the optimal distribution of optical intensity within a radiated laser beam at a transmitter plane which is propagated through free space as well as through a turbulent atmosphere. In order to analyse the propagation of an optical wave through atmospheric turbulence, the simulation, based on the Split-step beam propagation method, was utilized. The aim of the paper is to determine the optimal parameters for a Flattened Gaussian beam at the transmitter plane. As a result, the scintillation index should be reduced. There are a number of theoretical studies aimed at propagating the flattened beam despite the lack of experimental work in this area. Therefore, the techniques for generating the Flattened Gaussian beam will also be mentioned.
Keywords
Gaussian beam; Flattened Gaussian beam; optical wireless communication; atmospheric turbulence; scintillation; aperture averaging.
Authors
BARCÍK, P.; WILFERT, O.; LEITGEB, E.; HUDCOVÁ, L.
RIV year
2015
Released
15. 5. 2015
Publisher
IET Digital Library
ISBN
1751-8768
Periodical
IET Optoelectronics
Year of study
9
Number
5
State
United Kingdom of Great Britain and Northern Ireland
Pages from
263
Pages to
268
Pages count
6
URL
http://digital-library.theiet.org/content/journals/10.1049/iet-opt.2014.0153
BibTex
@article{BUT117436, author="Peter {Barcík} and Otakar {Wilfert} and Erich {Leitgeb} and Lucie {Hudcová}", title="OPTIMAL DISTRIBUTION OF THE OPTICAL INTENSITY WITHIN A LASER BEAM FOR OPTICAL WIRELESS COMMUNICATIONS", journal="IET Optoelectronics", year="2015", volume="9", number="5", pages="263--268", doi="10.1049/iet-opt.2014.0153", issn="1751-8768", url="http://digital-library.theiet.org/content/journals/10.1049/iet-opt.2014.0153" }